Materials Science and Engineering

The Doctoral Program in Materials Science and Engineering is designed for professionals who wish to deepen their expertise in the research and development of technical and specialized materials.
The program combines theoretical knowledge from physics, chemistry, and engineering with practical skills in analyzing material properties, structure, degradation, and recycling.

It prepares students for independent scientific research, utilizing modern instrumentation and experimental methods.
Graduates become top experts in both research and industrial practice, contributing to innovation and technological progress in materials engineering.

Program Overview

This interdisciplinary program is built on a solid foundation of physics, chemistry, and engineering. It focuses on a detailed understanding of the structure, properties, and behavior of both technical and specialized materials — from metal alloys to composites and nanomaterials.

You will learn how materials behave under stress, how they degrade, and how they can be protected or reused.
The program goes beyond theoretical study — you will take part in real research projects, international internships, and collaboration with industrial partners.

Why Study This Field?

Because materials are the foundation of every technology — and those who understand them hold the key to innovation.
This program teaches you to create new materials, enhance their properties, and find more efficient and sustainable ways to use them.

You will gain both a deep theoretical insight and practical expertise, preparing you for success in research, development, and industrial practice.
You’ll also become part of international research teams, present your results at conferences, and publish in top scientific journals.
You will learn to work with state-of-the-art laboratory equipment, including technologies for material characterization and lifetime testing.

Practical Focus of the Studies

This program is not just about theory. From the beginning, you will work on specific research projects, such as:

• developing new metal alloys and composites for the automotive and aerospace industries,
• researching biocompatible and antibacterial materials for implants,
• designing sandwich polymer materials for modern construction and transport applications,
• testing friction composites for brake systems,
• studying surface treatments to ensure compatibility between components,
• evaluating material degradation and recycling within the framework of the circular economy.

You will have access to cutting-edge laboratories, advanced computational tools, and the opportunity to publish your dissertation results in prestigious scientific journals.

As a graduate, you will:

• understand the internal structure and properties of both conventional and advanced technical materials,
• master methods for evaluating mechanical, physical, and chemical properties,
• be able to design new materials for specific applications — from biomedicine to transport,
• understand degradation processes and propose methods of prevention or mitigation,
• work with modern experimental equipment and analytical methods,
• communicate your research results effectively to both scientific audiences and industrial partners,
• participate in research teams or lead your own scientific projects.

With this degree, you will enter a world driven by expertise, innovation, and a deep understanding of materials. You can pursue a career as a:

• research scientist in institutes or universities,
• materials specialist in companies developing or producing advanced materials,
• technologist in material processing or recycling,
• expert in assessing material durability and performance,
• project manager in technically oriented companies,
• consultant in materials engineering, industry, or public administration.

Thanks to the combination of theoretical knowledge, practical experience, and international exposure, you will be prepared not only for an academic career but also for demanding positions in industrial practice.